HACK SMART, STAY SECURE — OUR EXPERTISE, YOUR ADVANTAGE
Contact| FAQ| Newsletter|
Post-Quantum Crypto

Cybersecurity meets Quantum

A comprehensive, hands-on workshop covering cyber security fundamentals, quantum computing, post-quantum cryptography, quantum key distribution, and quantum-safe systems — preparing you for the quantum era of security.

Explore Curriculum Back to Workshops

Why Quantum-Era Security?

Current encryption systems that protect the world's most sensitive data can be broken by quantum computers. Organizations that fail to prepare for this transition face catastrophic exposure. Cybersecurity professionals with quantum knowledge are among the most strategically valuable experts in the world today.

  • Quantum computers directly threaten RSA and ECC encryption
  • NIST post-quantum standards are being mandated now
  • Governments and enterprises are urgently seeking quantum-ready talent
  • Dual expertise in cybersecurity and quantum is extremely rare
  • Quantum-safe migration is a multi-trillion dollar transition
  • Strategic advantage for security architects and consultants

What You'll Learn

  • Cyber security fundamentals and key domains
  • Phishing, malware, ransomware & social engineering attacks
  • Firewalls, IDS, secure communication & network defense
  • Cryptography — symmetric, asymmetric, digital signatures & hashes
  • Quantum computing — qubits, superposition, entanglement & gates
  • Quantum algorithms — Grover's & Shor's and their security impact
  • Post-quantum cryptographic algorithms & future of secure comms
  • Quantum key distribution, secure quantum networks & quantum internet
Workshop Curriculum

Your Learning Journey

Eleven comprehensive modules progressing from cyber security fundamentals through quantum computing, quantum algorithms, post-quantum cryptography, and quantum-safe systems of the future.

  • What is Cyber Security?A foundational overview of cyber security — its definition, scope, and role in protecting digital systems, networks, and data. Understanding what security professionals defend, who the adversaries are, and why cyber security has become one of the most critical disciplines of the modern era.
  • Importance of Cyber Security in the Digital EraHow the explosive growth of connected devices, cloud infrastructure, and digital services has expanded the attack surface globally — and why every organization, regardless of size or sector, now depends on robust cyber security to protect its operations and reputation.
  • Cyber Security DomainsAn overview of the major cyber security domains — network security, application security, endpoint security, identity and access management, incident response, risk and compliance, and cloud security — and how they work together to create a comprehensive defense posture.
  • Phishing AttacksHow phishing attacks deceive users into revealing credentials, clicking malicious links, or downloading dangerous attachments — covering spear phishing, whaling, smishing, and vishing, along with the technical indicators and defensive controls used to detect and prevent them.
  • Malware and RansomwareThe taxonomy of malicious software — viruses, worms, Trojans, spyware, adware, and rootkits — and the mechanics of modern ransomware attacks including encryption, double extortion, and ransom-as-a-service, along with detection and recovery strategies.
  • Man-in-the-Middle AttacksHow attackers intercept and manipulate communication between two parties — ARP poisoning, SSL stripping, DNS spoofing, and session hijacking — and the cryptographic and network controls that detect and prevent these attacks in enterprise and public environments.
  • Social EngineeringThe human element of cyber attacks — how attackers exploit psychology, trust, and authority through pretexting, baiting, tailgating, and impersonation to bypass technical controls entirely, and why security awareness training is a critical organizational defense layer.
  • FirewallsHow firewalls enforce access control policies at the network perimeter — packet filtering, stateful inspection, next-generation firewalls (NGFW), and web application firewalls (WAF) — and how to design layered perimeter defenses for modern enterprise environments.
  • Intrusion Detection SystemsHow IDS and IPS tools monitor network traffic and system logs for signs of malicious activity — signature-based vs. anomaly-based detection, the role of SIEM platforms in centralizing alerts, and how SOC analysts respond to detected intrusions in real time.
  • Secure CommunicationThe protocols and mechanisms that protect data in transit — TLS/SSL, VPNs, IPSec, and SSH — how certificates and public key infrastructure (PKI) establish trust, and best practices for securing communications across enterprise, cloud, and remote environments.
  • Encryption and DecryptionThe core concepts of encryption — how plaintext is transformed into ciphertext using cryptographic keys, the role of encryption in confidentiality, and how decryption restores the original data for authorized recipients only.
  • Symmetric EncryptionHow symmetric encryption algorithms like AES and DES use the same key for both encryption and decryption — their speed, key distribution challenges, and practical applications in disk encryption, VPNs, and session encryption in modern systems.
  • Asymmetric EncryptionHow public-key cryptography uses a mathematically linked key pair — RSA, ECC, and Diffie-Hellman — enabling secure key exchange and encrypted communication without ever sharing a secret key, and why these systems underpin TLS, email, and digital authentication globally.
  • Digital SignaturesHow digital signatures use asymmetric cryptography to verify the authenticity and integrity of messages and documents — preventing forgery, repudiation, and tampering — and their role in code signing, email authentication, and certificate-based trust systems.
  • Hash FunctionsHow cryptographic hash functions like SHA-256 produce a fixed-length fingerprint of any input — their properties of collision resistance, preimage resistance, and determinism — and their applications in password storage, file integrity verification, and blockchain systems.
  • Classical Bits vs QubitsHow classical bits are constrained to 0 or 1 while qubits can exist in a superposition of both states simultaneously — and why this fundamental difference enables quantum computers to explore vastly larger solution spaces per computation than any classical machine.
  • SuperpositionThe principle of superposition — how a qubit simultaneously represents both 0 and 1 until measured, how multi-qubit systems achieve exponential state spaces, and how quantum algorithms exploit superposition to process many possibilities in parallel.
  • Quantum EntanglementHow two or more qubits can become entangled so that the state of one instantaneously determines the state of the other — regardless of the physical distance between them — and how entanglement is a fundamental resource in quantum communication and quantum cryptography.
  • Quantum GatesThe basic building blocks of quantum computation — Pauli gates (X, Y, Z), Hadamard, Phase, and Controlled gates — how they manipulate qubit states by rotating them on the Bloch sphere, and how they combine to form the logic of quantum circuits.
  • Quantum CircuitsHow quantum gates are arranged in sequence to form circuits — the quantum circuit model of computation, how to read circuit diagrams, how measurement collapses quantum states to classical outputs, and the relationship between circuit depth and computational power.
  • Quantum ParallelismHow quantum computers evaluate a function on all possible inputs simultaneously using superposition — a fundamental advantage over classical sequential computation — and the role of interference in extracting useful answers from this exponentially large superposition.
  • Grover's Search AlgorithmHow Grover's algorithm searches an unsorted database of N items in O(√N) operations versus classical O(N) — and why this quadratic speedup threatens symmetric encryption systems like AES by effectively halving the security of their key lengths against quantum adversaries.
  • Shor's Factoring AlgorithmThe most consequential quantum algorithm for cyber security — how Shor's algorithm factors large integers in polynomial time using quantum Fourier transforms, and why it will render RSA, ECC, and Diffie-Hellman encryption completely broken once sufficiently large quantum computers are available.
  • Introduction to QiskitGetting started with IBM's open-source quantum SDK for Python — installing Qiskit, building and simulating quantum circuits, running jobs on IBM Quantum backends, and interpreting measurement histograms to understand the probabilistic outputs of quantum computation.
  • Working with Jupyter Notebook for Quantum SimulationsSetting up a Jupyter Notebook environment for quantum experiments — writing and running quantum circuits interactively, using Qiskit's visualization tools to explore qubit states and circuit behavior, and simulating cryptographic attack scenarios with Grover's and Shor's algorithms.
  • Limitations of Classical CryptographyWhy the mathematical hardness assumptions underlying RSA, ECC, and DH — integer factorization and discrete logarithm — do not hold against quantum computers running Shor's algorithm, and what it means for the entire public-key cryptographic infrastructure that secures the internet today.
  • Quantum Threats to EncryptionThe concrete quantum threats to current cryptographic systems — how harvest-now-decrypt-later attacks are already being executed today against TLS traffic, and why organizations cannot wait for quantum computers to arrive before beginning their cryptographic migration to quantum-resistant standards.
  • Quantum-Resistant AlgorithmsThe NIST post-quantum cryptography standardization process and its finalists — CRYSTALS-Kyber for key encapsulation, CRYSTALS-Dilithium and FALCON for digital signatures, SPHINCS+ for stateless hash-based signatures — and how these lattice-based and hash-based algorithms resist quantum attacks.
  • Future of Secure CommunicationHow organizations are planning and executing the migration from classical to post-quantum cryptographic systems — crypto-agility strategies, hybrid classical/post-quantum deployments, compliance timelines, and what the fully quantum-safe communications landscape will look like in the coming decade.
  • Quantum Key DistributionHow QKD protocols like BB84 and E91 exploit the laws of quantum mechanics to distribute cryptographic keys with unconditional security — any eavesdropping attempt disturbs the quantum states and is immediately detectable, providing information-theoretic security provable by physics rather than computational hardness.
  • Secure Quantum NetworksHow quantum networks are being built and interconnected — quantum repeaters that extend QKD range, trusted-node architectures, satellite-based QKD demonstrated by China's Micius satellite, and the technical challenges of building reliable, scalable quantum-secure communication infrastructure globally.
  • Quantum InternetThe long-term vision of a global quantum internet — how quantum repeaters, quantum teleportation, and entanglement distribution will enable perfectly secure communication and distributed quantum computation at planetary scale, and what research milestones remain before this becomes a reality.
  • Quantum-Safe Cyber Security SystemsHow enterprises are building quantum-safe security architectures today — integrating post-quantum algorithms into TLS, PKI, VPNs, and identity systems, implementing crypto-agility frameworks, and aligning with NIST, ETSI, and government mandates for quantum-resistant infrastructure.
  • Career Opportunities in Quantum SecurityThe career landscape at the intersection of quantum and cyber security — quantum cryptographer, post-quantum security architect, quantum network engineer, and quantum risk consultant — and the skills, certifications, and academic pathways that lead to these high-demand, premium-salary roles.
Skills You Gain

What You'll Walk Away With

Industry-applicable skills spanning classical cyber security, quantum computing, and post-quantum cryptography — positioning you at the most sought-after intersection in all of security.

Cyber Security FundamentalsDomains, threats & network defense
CryptographySymmetric, asymmetric & hash functions
Quantum ComputingQubits, superposition & entanglement
Quantum Gates & CircuitsHadamard, CNOT & circuit design
Quantum AlgorithmsGrover's, Shor's & quantum parallelism
Post-Quantum CryptographyNIST PQC standards & lattice-based crypto
Quantum Key DistributionBB84, E91 & secure quantum networks
Qiskit ProgrammingBuild & simulate quantum circuits
Hands-On Learning

Learn by Doing, Not Just Listening

Every concept is reinforced through live demonstrations, guided Qiskit labs, cryptographic attack simulations, and real-world quantum security scenarios in a fully equipped environment.

Qiskit Lab

Build quantum circuits using Qiskit and simulate Grover's search and Shor's factoring algorithm on real cryptographic scenarios

Crypto Attack Simulation

Analyse how quantum algorithms break RSA and ECC encryption — and compare classical vs. post-quantum key strengths

QKD Protocol Exercise

Walk through the BB84 quantum key distribution protocol step-by-step and simulate eavesdropping detection

01
Live DemonstrationsInstructors demonstrate quantum circuit construction, cryptographic attack simulations, and QKD protocol execution live — so you see exactly how each concept operates before attempting exercises yourself.
02
Guided Qiskit LabsStructured lab exercises using Qiskit in Jupyter Notebook — from building single-qubit circuits to implementing Grover's search algorithm and exploring the cryptographic implications of Shor's factoring in practice.
03
Quantum Security ScenariosWork through realistic quantum security scenarios — evaluating existing cryptographic deployments for quantum vulnerability, applying post-quantum algorithm selection criteria, and planning a crypto-agility migration strategy.
04
Expert Q&A SessionsOpen discussions with quantum security professionals throughout the workshop — addressing specific questions about post-quantum migration, career pathways, and the real-world state of quantum threats today.
Tools & Technologies

Industry-Standard Security & Quantum Stack

Hands-on experience with the exact tools used by cyber security professionals and quantum researchers at leading institutions and organizations worldwide.

Qiskit (IBM)
Jupyter Notebook
Python 3
IBM Quantum Platform
OpenSSL
Wireshark
Qiskit Aer Simulator
CRYSTALS-Kyber / Dilithium
Qiskit Visualization Tools
Kali Linux
OpenQASM
NIST PQC Standards
Security Domains

Where Quantum Meets Cyber Security

This workshop prepares you to defend across every layer of the quantum security landscape — from classical network defense to quantum-safe cryptographic architecture.

Quantum Threats to Encryption

Shor's algorithm will break RSA, ECC, and Diffie-Hellman encryption once sufficiently powerful quantum computers are available. Harvest-now-decrypt-later attacks are already being executed against today's encrypted traffic by nation-state actors preparing for this transition.

Post-Quantum Cryptography

NIST-standardized post-quantum algorithms — CRYSTALS-Kyber, CRYSTALS-Dilithium, and SPHINCS+ — are being mandated across government and critical infrastructure. Professionals who can evaluate, select, and deploy these algorithms are urgently needed worldwide.

Quantum Key Distribution

QKD uses the laws of quantum physics to distribute encryption keys with unconditional security — any interception attempt is physically detectable. Commercial QKD deployments are already operating in financial, government, and critical infrastructure environments globally.

Network & Perimeter Security

Classical network security — firewalls, IDS/IPS, VPNs, and secure communication protocols — remains the essential foundation of any defense posture. Understanding how quantum computing will eventually impact these controls is critical for forward-looking security architects.

Cryptographic Migration & Crypto-Agility

Organizations must begin migrating their cryptographic systems to quantum-resistant alternatives now — before quantum computers arrive. Crypto-agility frameworks, hybrid deployments, and compliance timelines are driving major investment and creating significant career opportunities.

Quantum Internet & Future Systems

The quantum internet — leveraging entanglement and teleportation for theoretically unbreakable global communications — is moving from laboratory research to real-world pilot deployments. Security architects who understand both classical and quantum systems will lead this transition.

Who Should Attend

This Workshop Is For You If…

Whether you're new to security or a seasoned professional, this workshop delivers structured, practical value at the critical intersection of cyber security and quantum computing.

Students & Freshers

Get ahead of the curve by building quantum security skills before the field explodes in demand. Add hands-on Qiskit experience, post-quantum cryptography knowledge, and a recognized credential to your portfolio early in your career.

Security Professionals

Deepen your expertise by understanding the quantum threat to current cryptographic systems — and how to defend against it. Knowledge of post-quantum cryptography and QKD is becoming essential for senior security architects and CISOs globally.

Software Developers

Understand the cryptographic libraries and protocols you rely on — and what happens when quantum computers break them. Learn how to implement post-quantum cryptographic algorithms and build quantum-resilient applications for the coming decade.

IT Managers & Leaders

Gain the strategic understanding needed to lead your organization's quantum security transition — evaluating cryptographic risk, engaging with compliance mandates, and making informed decisions about post-quantum migration investments and timelines.

Workshop Benefits

Why Attend This Workshop?

An immersive, structured program that gives you rare dual expertise in classical cyber security and quantum computing — a combination that commands exceptional career demand and compensation.

Comprehensive Coverage

Eleven modules spanning cyber security fundamentals, all major attack types, classical cryptography, quantum computing, Qiskit programming, quantum algorithms, post-quantum standards, QKD, and future career opportunities.

Hands-On Experience

Guided Qiskit labs, quantum circuit building exercises, cryptographic attack simulations, and QKD protocol walkthroughs — ensuring you can demonstrate practical quantum security skills from day one.

Expert Instruction

Learn from practitioners with real quantum computing and cyber security experience — sharing insights from live deployments, answering your specific questions, and helping you navigate the rapidly evolving quantum security landscape.

Rare Career Advantage

Professionals with combined quantum and cyber security expertise are extraordinarily scarce and exceptionally well compensated. Completing this workshop positions you at the most strategically important frontier in all of technology security.

Certification

Walk Away Certified

Certificate of Completion

Every participant who successfully completes the workshop receives an official Certificate of Completion from SpyPro Hack You — a recognized credential that demonstrates your cyber security foundations, quantum computing knowledge, and post-quantum cryptography skills to employers, clients, and institutions worldwide.

Industry Recognized Digitally Verified LinkedIn Shareable Portfolio Ready

Future-Proof Your Security Career

Get ahead of quantum threats before they arrive. Master post-quantum cryptography, quantum key distribution, and quantum-safe security systems — and position yourself at the most strategically critical frontier in all of cyber security. Limited seats available — secure yours today!

Enroll Now
+91 8182881234 +91 8182891234
Contact us